In the world of medical diagnostics and precision industrial inspection, "space" is a luxury that engineers rarely have. When you are designing a tool to navigate a human artery or a jet engine turbine, every tenth of a millimeter matters.As a Camera Module manufacturer with over 30 years of experti
IntroductionIf you're designing something that needs to see into tight spaces—a medical scope, an industrial inspection tool, or even a DIY gadget—size is everything. The camera module has to fit through whatever opening you have. Too big, and it won't go where it needs to. Too small, and you might
What is an Endoscope Camera Module? A Complete Technical OverviewIn the fields of modern medicine and industrial maintenance, the ability to see into inaccessible spaces is not just a convenience—it is a necessity. At the heart of this capability lies a remarkably sophisticated piece of technology:
1. Introduction: When High-Definition Imaging Meets Confined SpacesIn the intersection of minimally invasive medical procedures and industrial precision inspection, a common technical challenge increasingly arises: how to obtain sufficiently clear, smooth, and realistic visual information within a c
IntroductionIf you're buying an endoscope—for medical use, industrial inspection, or DIY projects—you'll probably wonder about resolution. How clear will the image be? Can you see small details? The answer depends on what you're using it for. Resolution standards have come a long way, from basic sta
IntroductionAn endoscope camera module is the tiny camera that lets doctors see inside your body or inspectors look inside machinery. At the core of most modern endoscopes is a CMOS image sensor. CMOS technology has made these cameras smaller, cheaper, and more efficient. This article explains what
1. Introduction: When Detection Space Meets Device Volume ConstraintsIn the development of automated inspection equipment, specialized robots, and portable instruments, imaging system selection faces a fundamental contradiction: the target is deep inside narrow cavities, while control equipment is b
In the field of minimally invasive surgery, the "eye" of the instrument—the endoscope camera—is perhaps the most critical component. It must be small enough to navigate the human body's delicate pathways, yet powerful enough to provide surgeons with crystal-clear, lag-free imagery.At the heart of th
If you are sourcing imaging components or developing a vision-based product, you have likely come across two terms: endoscope and camera module. They are closely related, but they are not the same thing. Mixing them up can lead to the wrong purchasing decision or unnecessary development work.This ar
In both modern medicine and high-end industrial maintenance, the ability to see into inaccessible spaces is critical. Whether a surgeon is performing a minimally invasive procedure or an aerospace engineer is inspecting a turbine blade, the primary tool at work is the endoscope.At the heart of these
IntroductionIn industrial nondestructive testing, medical device development, and embedded vision systems, a recurring challenge arises when the target lies on the sidewall of a pipe or within narrow cavities, particularly at millimeter-scale diameters. Traditional forward-view endoscopes fail in su
IntroductionAn endoscope camera module is the small imaging system inside every borescope or medical scope. It lets you see into tight spaces—inside engines, behind walls, or inside the human body. Despite its tiny size, this module contains several precision parts that work together to capture and
IntroductionA USB endoscope camera module is a small camera designed to look into tight spaces. Plumbers use them to check inside pipes. Mechanics use them to inspect engines without taking things apart. Homeowners use them to see inside walls. If you need to see somewhere you can't physically fit y
OV9734 Sensor 3.6mm Micro HD Endoscope Camera Module: Engineering Guide for Confined-Space Vision SystemsIntroductionIn the realm of industrial inspection, precision equipment maintenance, and embedded vision systems, the ability to visualize the interior of narrow structures often determines the su
Technical Logic and System Integration Considerations for Selecting 8mm 2MP Endoscope ModulesIn the practice of medical endoscope equipment development and industrial inspection system integration, the selection of imaging modules often faces a set of coupled engineering constraints: physical dimens
In the imaging technology spectrum of medical endoscopes and industrial inspection equipment, the evolution of product specifications has always followed two parallel development paths: one continuously ascends toward higher resolution, wider dynamic range, and greater intelligence in the high-end m
Technical Selection and System Adaptation Considerations for 2MP HD UVC Camera ModulesIn the development practices of consumer electronics peripherals, industrial vision terminals, and open-source hardware projects, the selection of imaging modules often faces a set of interrelated engineering const
In the industrial landscape of vision imaging technology, products at different resolution levels occupy distinct ecological niches. While market attention increasingly gravitates toward frontier areas such as tens-of-megapixel sensors, multi-camera fusion, and computational photography, 2MP (1080P)
In applications such as industrial nondestructive testing, precision equipment maintenance, and medical diagnostics, selecting an imaging system often involves balancing a set of interdependent engineering constraints: the physical diameter of inspection channels restricts the module’s front-end siz
In the evolution of endoscopic imaging technology, the continual reduction of sensor size and module diameter has consistently been a key driver of industry innovation. The 4.5mm-diameter miniature USB endoscope module, centered on the BF2013 sensor, represents a critical node along this technologic
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SF-C50USB-D1.6
SINCEREFIRST
This is a Plastic Lens OCHFA10 Sensor Industrial LED Endoscope Camera Module, equipped with OmniVision OCHFA10 CMOS image sensor. Its core advantage lies in the adoption of a plastic lens paired with a lens design featuring a diameter of only 1.6mm with Steel Shell. The plastic lens combines light weight with excellent chemical stability, adapting to various disinfection scenarios while reducing the overall weight of the module. Meanwhile, it significantly reduces the module size and manufacturing cost while ensuring optical performance. The ultra-small diameter of 1.6mm breaks through space limitations, allowing access to narrow areas that conventional lenses can hardly reach. The module has 0.5MP pixels and 700x700 resolution, supporting a maximum frame rate of 30FPS. The sensor size is 1/17.5 inch, and the pixel size reaches 1.008μm×1.008μm. It supports YUY/MJEPG output formats, with an aperture of F5.0, a focal length of 0.418mm, and a field of view (FOV) of D105°*H86°*V86°, along with TV distortion < -11%, ensuring image regularity under a wide field of view. Additionally, it supports manual focus and direct-view imaging, adopts a Separated design, and outputs data at USB2.0 speed via a Micro USB interface while being compatible with the UVC protocol to support mainstream operating systems. The lens integrates 4 01005-sized LED beads to provide precise illumination. Manufactured through the SMT process and AA (Active Alignment) manufacturing process, it has passed international certifications and inspections including CE, FCC, RoHS, and REACH, meeting the requirements of various harsh application scenarios. | ![]() |
Precise and Reliable Materials: The 1.6mm-diameter lens with Steel Shell is paired with a plastic lens. This design not only meets the needs of detecting narrow spaces but also, due to the plastic material's chemical resistance, adapts to disinfection processes such as ethylene oxide sterilization. The Steel Shell enhances the structural strength of the lens, extending its service life.
Optimized Imaging and Illumination: It integrates 4 01005-sized LED beads (smaller size to fit micro lenses), which provide concentrated illumination with low power consumption. Combined with the 1.008μm pixel size and F5.0 aperture, it still ensures clear imaging at 700x700 resolution in narrow spaces.
High Operational Flexibility: The Separated design facilitates flexible arrangement of cables and lens positions. Manual focus allows accurate locking of the target area, and direct-view imaging simplifies the observation process, enabling quick deployment without complex debugging.
Advanced Technology and International Certifications: The SMT process and AA manufacturing process ensure module consistency. The USB2.0 speed and UVC protocol are compatible with mainstream device systems, and multiple international certifications meet the compliance requirements of medical, industrial, and other fields.
Structural and Cost Optimization: The adoption of a plastic lens and 1.6mm-diameter Steel Shell design achieves industry-leading miniaturization while significantly reducing manufacturing costs, making it particularly suitable for disposable application scenarios.
Minimally Invasive Medical Field: Especially suitable for precision medical endoscopes with extreme diameter requirements, such as neuroendoscopes and pediatric endoscopes, which require ultra-thin insertion for diagnosis and treatment scenarios.
Electronic Component Inspection: Used for defect detection of precision electronic components such as chip pins and micro capacitors. It can penetrate into component gaps and efficiently identify solder defects, circuit oxidation, and other issues.
Precision Instrument Maintenance: Adapted for internal maintenance of equipment such as watch movements and micro valves. It can flexibly adjust the angle in complex structures while maintaining clear close-range imaging, helping to detect hidden problems such as gear wear and blockages.
Scientific Research on Micro-Sample Observation: Applicable to the observation of microbial activities and fluid status inside microfluidic chips in laboratories. Its lightweight design is suitable for integration with equipment such as microscopes, enabling clear recording of dynamic processes.
Product Name | 1.6mm Endoscope Camera Module |
Image Sensor | OCHFA CMOS Sensor |
Pixel | 0.5MP |
Diameter | 1.6mm |
View Angle | D105°*H86°*V86° |
F NO | 5.0 |
Product Type | Butoon Photo Endoscope Camera Module |
Led | 4pcs 01005 Led |
Interface | Micro USB |
Feature | Medical Endoscope Camera Module |
Its key strength lies in the 1.6mm-diameter lens with Steel Shell paired with a plastic lens—this combination enables access to narrow spaces, offers chemical resistance for disinfection, reduces weight, and lowers manufacturing costs, while maintaining stable optical performance.
It works for 4 main areas: minimally invasive medical use, electronic component defect detection, precision instrument maintenance, and lab micro-sample observation.
It is manufactured via SMT and AA (Active Alignment) processes for consistency, and has passed international certifications including CE, FCC, RoHS, and REACH—meeting harsh scenario requirements.
Yes, the plastic lens has chemical resistance, supporting disinfection processes like ethylene oxide sterilization. The Steel Shell around the lens also enhances structural strength, extending its service life.
This is a Plastic Lens OCHFA10 Sensor Industrial LED Endoscope Camera Module, equipped with OmniVision OCHFA10 CMOS image sensor. Its core advantage lies in the adoption of a plastic lens paired with a lens design featuring a diameter of only 1.6mm with Steel Shell. The plastic lens combines light weight with excellent chemical stability, adapting to various disinfection scenarios while reducing the overall weight of the module. Meanwhile, it significantly reduces the module size and manufacturing cost while ensuring optical performance. The ultra-small diameter of 1.6mm breaks through space limitations, allowing access to narrow areas that conventional lenses can hardly reach. The module has 0.5MP pixels and 700x700 resolution, supporting a maximum frame rate of 30FPS. The sensor size is 1/17.5 inch, and the pixel size reaches 1.008μm×1.008μm. It supports YUY/MJEPG output formats, with an aperture of F5.0, a focal length of 0.418mm, and a field of view (FOV) of D105°*H86°*V86°, along with TV distortion < -11%, ensuring image regularity under a wide field of view. Additionally, it supports manual focus and direct-view imaging, adopts a Separated design, and outputs data at USB2.0 speed via a Micro USB interface while being compatible with the UVC protocol to support mainstream operating systems. The lens integrates 4 01005-sized LED beads to provide precise illumination. Manufactured through the SMT process and AA (Active Alignment) manufacturing process, it has passed international certifications and inspections including CE, FCC, RoHS, and REACH, meeting the requirements of various harsh application scenarios. | ![]() |
Precise and Reliable Materials: The 1.6mm-diameter lens with Steel Shell is paired with a plastic lens. This design not only meets the needs of detecting narrow spaces but also, due to the plastic material's chemical resistance, adapts to disinfection processes such as ethylene oxide sterilization. The Steel Shell enhances the structural strength of the lens, extending its service life.
Optimized Imaging and Illumination: It integrates 4 01005-sized LED beads (smaller size to fit micro lenses), which provide concentrated illumination with low power consumption. Combined with the 1.008μm pixel size and F5.0 aperture, it still ensures clear imaging at 700x700 resolution in narrow spaces.
High Operational Flexibility: The Separated design facilitates flexible arrangement of cables and lens positions. Manual focus allows accurate locking of the target area, and direct-view imaging simplifies the observation process, enabling quick deployment without complex debugging.
Advanced Technology and International Certifications: The SMT process and AA manufacturing process ensure module consistency. The USB2.0 speed and UVC protocol are compatible with mainstream device systems, and multiple international certifications meet the compliance requirements of medical, industrial, and other fields.
Structural and Cost Optimization: The adoption of a plastic lens and 1.6mm-diameter Steel Shell design achieves industry-leading miniaturization while significantly reducing manufacturing costs, making it particularly suitable for disposable application scenarios.
Minimally Invasive Medical Field: Especially suitable for precision medical endoscopes with extreme diameter requirements, such as neuroendoscopes and pediatric endoscopes, which require ultra-thin insertion for diagnosis and treatment scenarios.
Electronic Component Inspection: Used for defect detection of precision electronic components such as chip pins and micro capacitors. It can penetrate into component gaps and efficiently identify solder defects, circuit oxidation, and other issues.
Precision Instrument Maintenance: Adapted for internal maintenance of equipment such as watch movements and micro valves. It can flexibly adjust the angle in complex structures while maintaining clear close-range imaging, helping to detect hidden problems such as gear wear and blockages.
Scientific Research on Micro-Sample Observation: Applicable to the observation of microbial activities and fluid status inside microfluidic chips in laboratories. Its lightweight design is suitable for integration with equipment such as microscopes, enabling clear recording of dynamic processes.
Product Name | 1.6mm Endoscope Camera Module |
Image Sensor | OCHFA CMOS Sensor |
Pixel | 0.5MP |
Diameter | 1.6mm |
View Angle | D105°*H86°*V86° |
F NO | 5.0 |
Product Type | Butoon Photo Endoscope Camera Module |
Led | 4pcs 01005 Led |
Interface | Micro USB |
Feature | Medical Endoscope Camera Module |
Its key strength lies in the 1.6mm-diameter lens with Steel Shell paired with a plastic lens—this combination enables access to narrow spaces, offers chemical resistance for disinfection, reduces weight, and lowers manufacturing costs, while maintaining stable optical performance.
It works for 4 main areas: minimally invasive medical use, electronic component defect detection, precision instrument maintenance, and lab micro-sample observation.
It is manufactured via SMT and AA (Active Alignment) processes for consistency, and has passed international certifications including CE, FCC, RoHS, and REACH—meeting harsh scenario requirements.
Yes, the plastic lens has chemical resistance, supporting disinfection processes like ethylene oxide sterilization. The Steel Shell around the lens also enhances structural strength, extending its service life.
